Upload
others
View
5
Download
0
Embed Size (px)
Citation preview
Documentation of Pilot Project "Smart
Campus"
Market Transformation Towards Nearly Zero Energy
Buildings Through Widespread Use of Integrated Energy
Design (MaTrID): IEE/11/989/SI2.615952
Smart Campus
Wiener Netze GmbH, Austria
Margot Grim, e7, Austria
Contact details
Dipl.-Ing. Stefan Amann
e7 Energie Markt Analyse GmbH
Theresianumgasse 7/1/8
1040 Vienna, Austria
Disclaimer
The MaTrID project is supported by the European
Commission in the Intelligent Energy for Europe Programme.
The sole responsibility for the content of this publication lies
with the authors. It does not necessarily reflect the opinion of
the European Union. Neither the EACI nor the European Commission is responsible for any use that may be made
of the information contained therein. The MaTrID project duration is from June 19, 2012 – December 18, 2014
(Contract Number: IEE/11/989/SI2.615952
Documentation of pilot project "Smart Campus"
1
Table of Content
1 Background Information ........................................................................................... 2
2 Design Goals .............................................................................................................. 3
3 Work Organisation ..................................................................................................... 5
3.1 Team Composition ....................................................................................................... 5
3.2 ID facilitator: Role and Function ................................................................................... 6
4 Communication Among Team Members ................................................................. 8
4.1 Use of Building Information Model (BIM) Tools ........................................................... 8
4.2 File Sharing System ..................................................................................................... 9
4.3 Information Sharing ...................................................................................................... 9
4.4 Transfer of Knowledge ................................................................................................. 9
5 ID Strategy - Workflow ............................................................................................. 11
5.1 Quality Assurance Plan & Quality Control Plan ......................................................... 11
5.2 Setting Responsibilities, Milestones and Highlighting Critical Points in Every Design
Phase ......................................................................................................................... 11
6 Innovation and Demonstration ............................................................................... 15
6.1 Innovative Solutions ................................................................................................... 15
6.2 Demonstration (Results and Process) ....................................................................... 17
6.2.1 Initial Situation ................................................................................................ 17
6.2.2 Project Preparation ........................................................................................ 19
6.2.3 The Competition ............................................................................................. 20
6.3 Lessons Learned ....................................................................................................... 22
6.4 Public Relations ......................................................................................................... 22
Documentation of pilot project "Smart Campus"
2
1 Background Information
Name/acronym of the pilot project: Smart Campus
Client: Wiener Netze GmbH
Name of contact person: Peter Steczowicz
Function of contact person: Head of Organisational Development Consultancy
Location: Vienna
Type of the building: Headquarters, administration, operating area
Gross floor space in m²: 93,000 m² (19,000 m² administration, 38,000 m² operating area
(workshops, test bays, depots, central warehouse, corresponding offices and administration
areas), 36,000 m² other areas for e.g. exhibitions, conference etc.)
Staff: 1,400
To be completed: 2016
Further information: http://www.smart-campus.at
The existing buildings of Wiener Netze GmbH are in need of renovation. To refurbish these buildings within an economic range is hardly possible. For this reason the Wiener Netze GmbH decided to build a new building for their headquarters and to merge some of their facilities to shorten the distances between them.
While planning the main goals of the building, it became clear that the new building should also represent the matters that are important to the company. These matters are:
Smart Grids: Smart load distribution and control of decentralized generators Smart Meter: With digital meters using remote readout the manner of consumption
becomes transparent. On this basis specific tariff models can be established. Smart Homes: make an efficient use of energy possible
For the Wiener Netze the term "smart" means more than just a word, it is the guiding theme for their new construction.
Smart stands for an intelligent interaction of consumers, infrastructure and energy supply. The Wiener Netze GmbH wants to be exemplary in energy efficiency issues.
Documentation of pilot project "Smart Campus"
3
2 Design Goals
Table 1: Design goals per design phase.
Design goal Describe the goal and the set-point values if applicable
Aesthetics
Before initiating the design phase, we developed a "moodboard"
together with the strategic consultation company M.O.O.CON by
capturing the corporate identity in images which serve as a
significant source of inspiration for architects. The Wiener Netze
was perceived as: trust worthy, reliable, honest, assertive,
practical, tolerant, cooperative (see Figure 1)
Figure 1 - moodboard
The new building should represent these characteristics in
front of clients and the surroundings.
To comply with these requirements an anonymous, two-stage
competition for general planners was organized in Europe.
The main entrance will be decorated with an artwork
manifesting clear associations with "grids/nets". It will be
chosen from designs presented in a competition among co-
workers.
Accessibility
Most areas are freely accessible and no barriers keep disabled
people from spending time or working in the building.
This means that all office workplaces as well as almost the entire
workshop and depot area are freely accessible.
Cost-effectiveness
Previously to the planning, a budget for life cycle costs was
determined which is based on functional and spatial allocation
plans. The requirements set here are to be met.
trust worthy
reliable
honest
assertive
straightforward
practical
cooperative
tolerant
Documentation of pilot project "Smart Campus"
4
Design goal Describe the goal and the set-point values if applicable
Cost-effectiveness
Since the company´s core business is energy supply, the project
shall be exemplary without the employees loosing their comfort.
The target is to build an energy efficient building and to apply
renewable energies wisely as well as to make users aware of
their usage patterns.
Administration building: Passive house
Workshops and depots: Near Zero Energy Building
Monitoring: a monitoring system measures all consumptions
Functional/operational
goals
The main target was to merge the company´s facilities and thus
to create synergies between the administration and the
workshops/depots.
High flexibility of the entire building (workshops and offices)
A comprehensive functional and spatial allocation plan
within a detailed requirements planning was elaborated before
the general planning took place.
The entire management and their employees determined the
different roles within the project.
Historic preservation
Several buildings of the new location are listed for historic
preservation.
Productivity
The main objective is to increase the potential for synergies
through establishing a common facility.
The existing buildings do not meet the requirements of
today´s working processes. The new building shall be adapted
to future working processes.
Happy employees are highly important. For this reason areas for
communicating and comfort zones were emphasized.
Safety
Access safety: Doormen guard the main entrance 24 hours. All
entries are secured with online-locks.
The fire safety exceeds the official requirements, its regulations
were elaborated in close cooperation with the fire brigade and
appraisers.
Documentation of pilot project "Smart Campus"
5
Design goal Describe the goal and the set-point values if applicable
Sustainability
The building shall exhibit high environmental, economic and
sociocultural quality standards. To meet these standards the
building shall comply with the requirements of the certification
scheme ÖGNI/DGNB Gold. For each sustainability criterion
specific target values were defined. This way the certification is
obtained by achieving high quality standards especially in those
areas that are important to the company and not by merely
collecting points. The initial design was already awarded a
preliminary certification in gold.
Other
The company wants to be a role model who offers high quality
and energy efficiency standards to their employees. These
standards should also be consistently applied in the building
operation and life cycle costs. Since the usage patterns
influence the energy efficiency to a great degree, the co-workers
should use energy carefully. To achieve this a research
programme was initiated (see 3.2 preliminary draft design
phase)
3 Work Organisation
3.1 Team Composition
Was the design team composed by the same people during the whole process?
No, but the core team accompanied the project through the entire process. If required experts
of different areas were invited.
Did the multidisciplinary team increase the effectiveness of the design phase?
Yes, thanks to their expertise they were able to make decisions quicker without loosing their
professionalism.
Did the multidisciplinary team try to create interfaces between individuals and activities
to avoid further problems during the process?
Yes, experts, decision makers responsible for user matters as well as appraisers and civil
engineers supported the core team in every phase of the project.
Documentation of pilot project "Smart Campus"
6
The design of the detailed engineering serves as a good example. First a pool of user
representatives and appraisers was established. Then regular weekly meetings were held
and suitable people from the pool were chosen to share their user or expert perspective
and to help with the detailed engineering. This way high user satisfaction is ensured.
Is a multidisciplinary team useful in the beginning of the design activities?
Yes, therefore a general planning competition and no architecture competition was organized.
The competition required high technical building standards and evaluated those strictly. Close
cooperation with experts from technical building services and electrical engineering was the
key to a successful competition entry. Immediately after the competition, the ID facilitator
called weekly meetings, where users and designers participated, experts and appraisers were
invited when necessary. These meetings helped them to feel part of the team.
3.2 ID facilitator: Role and Function
Describe the role of the ID facilitator during the development of the pilot project.
M.O.O.CON GmbH is responsible for the coordination of tasks and activities of the persons
involved in the project and has been the ID facilitator since the project was initiated.
Table 2: Role of the ID Facilitator per design phase.
Design phase Describe the involvement of the ID Facilitator
Initial planning phase
Variant study which compared the existing building´s
refurbishment with the construction of a new building on several
locations based on a LCC-evaluation.
Requirements planning: Together with the awarding authority
and the users the ID facilitator analysed the organisation process
of the existing facilities which are to be merged into the new
location to create synergies. On this basis the requirements were
detected. Upon these a comprehensive space and function
allocation plan with the required organisational structure and
processes was elaborated.
Additionally, targets for sustainability criteria were defined with
the help of experts (e7). These criteria are to be complied with
during the design and construction phase.
Feasibility: The feasibility of the requirements was tested. If they
were not feasible, they were optimized. Real estates were found
Documentation of pilot project "Smart Campus"
7
Design phase Describe the involvement of the ID Facilitator
and compared, the budget for life cycle costs was calculated
(together with e7).
Coordination of following enquiries: use of ground water,
thermal response test, explosive ordnance detection (the property
was attacked during the World War 2), chemical expert report,
feasibility of transport of the excavations by train Due to the
property´s difficult situation, several possibilities (on the existing
and other sites) were analysed and compared intensively.
M.O.O.CON and e7 evaluated the entries of the anonymous,
two-stage and open general planning competition and
checked them for their architectural, functional, sustainable
and life cycle targets. The design which achieved these targets
the best won.
Concept design phase
Coordination of all people, experts and reviewers involved in
the project, - involvement of user representatives, building
operators and facility managers and many appraisers: Fire
safety, test bay planning, earthing design, etc.
Making decisions by considering operational aspects.
Next to the design project another research project was initiated
by e7 and the awarding authority. This project shall develop an
optimized user-feedback-system for the Smart Campus which
motivates users to behave energy efficiently (to open windows
and use sunshades in a reasonable way, to choose the correct
indoor temperature, etc. ) The ID facilitator is the link between
the project and the research team and is responsible for the
continuous application of research results in the actual planning.
Detailed design phase
The same tasks as in the concept design phase, plus:
Submission: Before reaching this important mile stone, the ID
facilitator discussed the design in detail with different user groups.
Awarding Procedure
Coordination and definition of the sustainability criteria
required for the competition
- Fair selection procedures were determined
- The companies´ sustainability criteria were checked.
- This was all done with the help of experts: Ecology, law,
economy, purchasing
- Coordination of appointments and contents for the required
users´and experts´ inputs/approvals (e.g. design of test bays,
operation, control room, etc. )
Documentation of pilot project "Smart Campus"
8
Design phase Describe the involvement of the ID Facilitator
Construction phase
Control of compliance with previously planned quality
standards
Pursuance of a continuous change management.
Coordination of the measurements and quality assurance
together with the general planner.
4 Communication among Team Members
4.1 Use of Building Information Model (BIM) Tools
When more than one BIM tool were used during the design, did problems occur when
sharing the numerical model with other team members?
The HVAC-planning was done with a BIM software programme. The model was not shared.
Can you briefly share your experience in using BIM tools by pointing out the lessons
you have learnt?
The HVAC-planners could reduce their time pressure by using BIM-tools, since its element-
based drawings include all masses and service catalogues are elaborated at the flick of a
switch.
Do you think that the software´s level of development is adequate for practical use?
For the purpose mentioned above it is suffice.
Can you point out some shortcomings you found when using BIM tools?
No shortcomings.
Documentation of pilot project "Smart Campus"
9
4.2 File Sharing System
How do you evaluate the efficiency of your file sharing system?
The file transfer system is based on a FTP-server with predetermined folder structure (similar
to the folder structure of Windows). This is considered good, but there are still improvements
to be made. The biggest disadvantage is that the system does not allow the download nor
upload of multiple files. An e-mail-function will be added to the platform during the execution
phase, the shortcomings noted shall be improved.
The system was chosen to reduce the time investment, but the relevant documents shall be
filed and documented in a logical way.
Would you considerate using more advanced systems for file sharing after the
experience you have gained in this project?
Yes, I can´t imagine handling the large amounts of data we exchanged and filed in the course
of this project without a file exchange system.
4.3 Information Sharing
How efficiently did you share information during the project? How would you evaluate
the efficiency?
Good - in the weekly meetings with users, planners and experts of different areas, who were
invited when necessary, we exchanged information quickly and without any complications.
We developed a very good team culture and meet regularly to attend social events (dinners,
sports).
Would you considerate using more advanced systems for information sharing after the
experience you have gained in this project?
Yes, but the personal contact should not be reduced.
4.4 Transfer of Knowledge
ID processes enable the transfer of knowledge by increasing the specialists´understanding for
the work conditions and thus expanding their knowledge of it. The aim of this knowledge
transfer is to provide better ID processes in the future by increasing awareness and creating a
better understanding during all stages of the planning process.
Documentation of pilot project "Smart Campus"
10
Describe how the transfer of knowledge took place between architects, engineers and
developer.
The transfer of knowledge was mainly achieved on a personal level through meetings, votings
and conferences. If we needed somebody new for a specific planning phase, we held meetings
with the general planner, the most important technical planers, the user representative and the
ID facilitator before hiring to gather all the information she or he needed. Voting and
conferences via telephone supported the transfer of knowledge.
We also exchanged information digitally as described above (4.3) via our platform or e-mail.
Documentation of pilot project "Smart Campus"
11
5 ID Strategy - Workflow
5.1 Quality Assurance Plan & Quality Control Plan
Which instruments did you use for controlling quality to
define targets and to stick to them
define the course of the project, the interfaces and the evaluation points of individual
entries?
We developed a catalogue of objectives which is based on the ÖGNI/DGNB certification
scheme to cover sustainability issues. Every sustainability criterion received a target value
which was evaluated from a economic, environmental and company-specific perspective. We
added targets to the catalogue of objectives like life cycle costs, functional and spatial
allocation plans. From the general planning competition on, the fulfilment of this
catalogue became mandatory, as a sort of requirement catalogue or quality assurance
plan and formed part of the contract. If an objective was not met, it had to be compensated
and the reasons for it had to be explained thoroughly.
If a mile stone (concept design, detailed design, etc.) was reached, the fulfilment of the targets
and the quality was examined comprehensively. An examination report with traffic-light system
depicting the level of achievements was elaborated to bring the results of this evaluation into
written form. After the plan was revised and the problems pointed out in the examination point
were solved, the milestone was definitely reached.
Additionally user representatives were invited to give feedback and influence the design.
A project management was put in charge to evaluate and supervise the technical quality and
the costs.
5.2 Setting Responsibilities, Milestones and Highlighting Critical Points in Every Design Phase
The ID facilitator is supported in the coordination of the entire process by a person responsible
for a specific planning phase. She or he is responsible for the correct and punctual
implementation of the tasks planned for a specific phase.
A mile stone is a formal checkpoint which is determined by the planning team in the beginning
of the design phase. A milestone can be the official acceptance by a contracting authority or
the transmission of one or several documents. After the achievement of one milestone is
confirmed, the next planing phase can be initiated.
A critical point is a unexpected situation which occurs in a specific phase. Please describe the
solutions found and discussed in the design team
Documentation of pilot project "Smart Campus"
12
Table 3: Responsibilities, milestones, critical points and outcomes per design phase.
Design phase Responsible(s) in
charge for the phase
Milestone(s) Critical point(s) Outcome(s)
Initial planning phase
MOOCON Functional and spatial
allocation plan
Feasibility
Defined sustainability
objectives
Budget for life cycle costs
Conviction of all managers
that the merging of different
locations into one new
location signifies a fresh
start.
The merging of several
facilities implies a
comprehensive process of
reorganisation
Finding of a new location
Many internal discussions
and information
Comprehensive
involvement in the
processes and structures
of different locations and
subcontractors.-
Comparison of different
locations
Competition phase
MOOCON, e7; general
planner
Winning project Examination of the required
criteria, especially the
budget for life cycle costs,
the thermal-energetic
quality, the architectural and
functional quality.
Site clearance (explosive
ordnance detection)
Comprehensive
preliminary examination,
additional calculations of
the energy consumption
parameter and life cycle
costs of every project.
Risk quantification
regarding the explosive
ordnance
Concept design
phase
general planner,
MOOCON e7
preliminary draft
design
submission
A project of this magnitude
reveals many critical points. In
regard of integral design,
Meetings on a regular
basis
Documentation of pilot project "Smart Campus"
13
competition
detailed planning
energy efficiency and
sustainability following critical
points were detected:
Compliment with the budget
for life cycle costs, the
maximum investment limit
and the thermal-energetic
criteria.
Timely involvement of the
research project
investigating user-centred
building automation
Phase-adapted involvement
of the user
Commitment of the entire
team to meet determined
targets
Variant study concerning
the investment and
subsequent costs
Clear responsibilities and
descriptions of procedures
and processes
The research project shall
constantly keep the design
team informed.
Convincing people by
saying: "Let´s do it
different this time!"
Optimising the building
services at a reasonable
cost and meeting the
target of maximising the
use of alternative energy
sources.
Detailed design
phase
General planner,
MOOCON e7
Defined procedure
Call for tenders issued
Awarding
Time delay caused by
appeal of the awarding-
procedure
Cost compliance
Re-organisation of the user
Use of an additional time
slot kept as reserve
Reductions of the quality to
lower costs are not
permitted
Re-organisation of the plan
without augmenting costs
or the delay in time due to
flexible floor plans and
designers
Documentation of pilot project "Smart Campus"
14
Construction phase
Executor, MOOCON Until now:
Excavation pit is finished
Transport of the excavated
material by train
Explosive ordnance (would
imply time delays and higher
costs)
Neighbours complaint
because of the dust/noise
Intensive negotiations
concerning the transport of
the excavated material by
train with the construction
firm --> was implemented
No explosive ordnance
was found
No neighbours complaint
about the dust and noise
coming from the
construction site (this was
a requirement in the
specifications for tenders)
Documentation of pilot project "Smart Campus"
15
6 Innovation and Demonstration
6.1 Innovative Solutions
The buildings´ excellent innovation is observed in many different areas.
Energy efficiency and construction ecology
The administrative building is 19,000m² large. This makes it the biggest building with
passive house quality in Europe, the workshops, depots, conference rooms and other
secondary areas are near zero energy buildings.
A life cycle assessment helped choosing the right building materials.
The Wiener Netze GmbH wants to become a role model in efficient energy use and
sustainability by implementing these measures.
Renewable energies
According to the requirements 30% of the energy consumption has to come from
renewable energy sources, now 50-60% of the energy used comes from these sources.
o Cooling (100% ground water), Ground water heat pump produces heat
o Photovoltaic systems with a power rating of approximately 300 kWp (the
involvement of co-workers in form of employee-investment-models is in
discussion)
o Solar power for warm water (showers)
LED vs. standard The object is illuminated mainly by LED.
PE non-renewable
Use of ground water, photovoltaic,
solar thermal energy
Operational building: near zero
energy standard
Office: passive house standard
OIB 6, without alternative
energy sources
Documentation of pilot project "Smart Campus"
16
Research project: user-centred building automation
The Wiener Netze GmbH will not only implement of a passive house and near zero energy
building, but it also wants it to achieve the energy consumption of these energy standards in
reality. Since this goal depends mainly on the users, e7 initiated a research project that shall
explore the different possibilities to motivate people to act energy efficiently. To achieve this a
comprehensive user survey was conducted to find out which methods are the best to motivate
users to act energy efficiently. This resulted in feedback panels and self-explanatory visual
instructions located in the centre of rooms. The influence of user behaviour on energy
consumption was estimated simultaneously to determine the potential for energy saving in
situations where some of the employees behave energy efficiently. Thus the energy
consumption of different user behaviours was examined by developing a building simulation.
The research project also investigated the technical possibilities that exist to control
procedures, give feedback, calculated investments and subsequent costs. After comparing
different designs and their potential for saving energy in a life cycle cost analysis, the results
revealed that feedback systems become economic within a time span of 30 years, if they are
accepted by the employees. These facts convinced us to integrate a feedback system into
the design. This system was integrated in the planning in cooperation with the planners.
For more information see http://www.e-sieben.at/de/projekte/1105_smart_campus.php
Feedback system for users to convey people to use energy efficiently
Compliance with life cycle costs
In this project it is important to emphasize the issue of the life cycle costs. Before initiating the
general planning competition, we determined the budget for life cycle costs on the basis of the
space and function allocation plan and the objectives set for achieving the desired building
quality and sustainability. During the general planning competition and after reaching different
Documentation of pilot project "Smart Campus"
17
mile stones, the budget for life cycle costs was checked. The method with the www.lzk-tool.at
revealed a high degree of accuracy since the investment costs for the winning project
calculated before the competition still remain the same during the final design phase. The
question whether the calculated amount for subsequent costs is realistic, can only be answered
when the building is in operation.
Level of acceptance among neighbours
Prior involvement of local politics, invitation of the neighbourhood to exhibit the competition
publically. Progresses are reported regularly in local neighbourhood news papers Until now
(end of excavation phase), no complaints have been reported.
6.2 Demonstration (Results and Process)
6.2.1 Initial Situation
Different locations
1100 employees
Operation building Simmering
245 employees 23 employees
9 employees
Storage facility
15 employees
6 employees
Documentation of pilot project "Smart Campus"
18
Energy standard in existing buildings
Image with visible light source
Image with visible light source
Image with visible light source
Documentation of pilot project "Smart Campus"
19
6.2.2 Project Preparation
Variant study based on life cycle cost calculations of different locations
The new location was chosen based on these results.
Current situation is kept the same (revitalisation DION and adaption BGS)
New building NETZ on WEG ab, adaption BGS, Wsnew in TT
New building NETZ and BGS at WEG ab, Wsnew in TT
New building DION and BGS at WEG ab (interim solution: TT)
New building DION at WEG ab and adaption BGS (interim solution TT)
New building DION and WEG ab and adaption BGS
New building DION at Gate 2 and adaption BGS
New building DION and BGS at WEG ab
depreciation (Afa)
book value
revenue, sales
(DION, BGS)
expansion costs
TownTown
difference to situation
where nothings is changed rent (Miete), utility
costs (BK)
Documentation of pilot project "Smart Campus"
20
6.2.3 The Competition
Inputs of the secondary level
Main building: 1,400 workplaces, approx. 82,000 gross floor space
Documentation of pilot project "Smart Campus"
21
Preliminary check
Energy efficiency
Life cycle costs
Specific heat demand HWB*-line in kWh/m2a Specific cooling demand KB* in kWh/m2a
Specific primary energy demand in kWh/m2a
thermal insulation of construction in winter, thermal comfort during winter thermal insulation of construction in summer, thermal comfort during summer
Documentation of pilot project "Smart Campus"
22
The winning project
Abbildung 1: The winning project: Smart Campus (source: Holzbauer und Partner ZT – GmbH)
6.3 Lessons Learned
New approaches, processes, technologies need to be incorporated into the design process as
early as possible, if this is not done it will be discussed and the decision will have to be
explained many times, new ideas might not even be implemented (since at a certain point
changes would imply much more work and costs).
The interpretation of life cycle costs from different variants (e.g. general planning competition,
technologies or feedback systems) helps the awarding authority to come to a decision. Even
though the awarding authority was sceptical at first and not sure if the investments are worth
it, it was convinced later and are also willing to invest more if the investments pay off in the
longer run.
6.4 Public Relations
The Wiener Netze GmbH created a website to document the project. Information to the press
especially neighbourhood newspapers was released on a regular basis. This interactive
approach also contributed to the fact that no complaints were reported until now.